Publication | Closed Access
Scheduling of scientific workflows in the ASKALON grid environment
323
Citations
9
References
2005
Year
Cluster ComputingEngineeringComputer ArchitectureOperations ResearchGrid EnvironmentAskalon Grid EnvironmentSystems EngineeringParallel ComputingIncremental Workflow PartitioningComputer EngineeringScheduling (Computing)Workflow Management SystemComputer ScienceGrid ApplicationWorkflow ExecutionComputational ScienceScientific Workflow SystemEdge ComputingCloud ComputingGrid ComputingParallel ProgrammingScientific Workflow Applications
Scheduling is a key concern for the execution of performance-driven Grid applications. The study compares existing scheduling approaches for scientific workflow applications in a Grid environment. The authors evaluate genetic, HEFT, and myopic algorithms, comparing incremental partitioning to full-graph scheduling on real-world balanced and unbalanced scientific workflows. Full-graph scheduling with HEFT outperformed the other strategies.
Scheduling is a key concern for the execution of performance-driven Grid applications. In this paper we comparatively examine different existing approaches for scheduling of scientific workflow applications in a Grid environment. We evaluate three algorithms namely genetic, HEFT, and simple "myopic" and compare incremental workflow partitioning against the full-graph scheduling strategy. We demonstrate experiments using real-world scientific applications covering both balanced (symmetric) and unbalanced (asymmetric) workflows. Our results demonstrate that full-graph scheduling with the HEFT algorithm performs best compared to the other strategies examined in this paper.
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